The hammer will have potential energy. It is because of the height.
Even though heat rises due to convection, the energy from the flame travels in all directions and can reach your hand even when it is held above the candle. The heat radiates outward from the flame, which is why you can feel the warmth even if your hand is not directly above the flame.
If you were talking about gravitational potential energy, assuming each ball was at the same height, the one with the most potential energy would be whichever is heaviest. If each ball weighs the same, whichever one is highest up has more potential energy.
When water held behind a dam is released, the potential energy is converted first into kinetic energy as the water flows downstream at high speed. This kinetic energy can then be harnessed by turbines to generate electricity in a hydroelectric power plant.
A high-altitude nuclear detonation occurring above 100,000 feet can generate a high-energy electromagnetic pulse (EMP) known as a high-altitude EMP (HEMP). This type of EMP can have long-range effects on electronic equipment and infrastructure by disrupting or damaging their functionality through the release of energy.
Both. Rainwater is gathered in a reservoir and held in by a dam. At that stage it has potential energy because it is high up. That energy came from the Sun that evaporated the water from the ocean. The water is then run down a chute at high speed. At that stage it has kinetic energy which is used to drive a turbine that rotates an electric generator to produce electrical energy.
What happens to the high-energy electrons held by NADH if there is no oxygen present?
Even though heat rises due to convection, the energy from the flame travels in all directions and can reach your hand even when it is held above the candle. The heat radiates outward from the flame, which is why you can feel the warmth even if your hand is not directly above the flame.
high altitude burst
If there is no oxygen present, the high-energy electrons held by NADH cannot be passed along the electron transport chain for energy production, resulting in a buildup of NADH and disrupted cellular respiration. The fate of the high-energy electrons and hydrogen held by NADH may vary depending on the organism, but typically, fermentation pathways are activated to regenerate NAD+ so glycolysis can continue generating ATP anaerobically.
When water held behind a dam is released, the potential energy is converted first into kinetic energy as the water flows downstream at high speed. This kinetic energy can then be harnessed by turbines to generate electricity in a hydroelectric power plant.
high-altitude burst
If you were talking about gravitational potential energy, assuming each ball was at the same height, the one with the most potential energy would be whichever is heaviest. If each ball weighs the same, whichever one is highest up has more potential energy.
Im not sure about the rules for other states, but i know the state of never doesn't let the high schoolers throw the hammer. In High School, the only state that has the hammer throw is Rhode Island.
A high-altitude nuclear detonation occurring above 100,000 feet can generate a high-energy electromagnetic pulse (EMP) known as a high-altitude EMP (HEMP). This type of EMP can have long-range effects on electronic equipment and infrastructure by disrupting or damaging their functionality through the release of energy.
high altitude burst
High-altitude burst
Both. Rainwater is gathered in a reservoir and held in by a dam. At that stage it has potential energy because it is high up. That energy came from the Sun that evaporated the water from the ocean. The water is then run down a chute at high speed. At that stage it has kinetic energy which is used to drive a turbine that rotates an electric generator to produce electrical energy.